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Nanoplastics in soil and aquatic ecosystems: Sources, impacts, and nature-based remediation strategies

Environmental Pollution 2026 Score: 50 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Cengiz Kaya, Muhammad Uzair Ashraf, Binoy Sarkar, Nanthi Bolan, Jörg RINKLEBE, Parvaiz Ahmad

Summary

This review examines nanoplastic contamination in both soil and aquatic ecosystems, covering sources, environmental concentrations, and ecological impacts. Researchers found that nanoplastics originate from plastic mulching, wastewater irrigation, and degradation of larger plastics, with reported concentrations reaching concerning levels, and they evaluate nature-based remediation strategies as potential solutions.

Study Type Environmental

Nanoplastics (NPs), defined as plastic particles smaller than 100 nm, are increasingly recognized as emerging contaminants in both soil and aquatic ecosystems. Their widespread presence, originates from plastic mulching, wastewater irrigation, atmospheric deposition, and the breakdown of larger plastics. Recent studies have reported NP concentrations in aquatic environments ranging from 0.3 to 488 μg/L, while agricultural soils may contain up to 6.6 Mt of microplastics, highlighting the scale of the problem. These particles can be taken up by plants via root and potentially foliar pathways, with experimental evidence of accumulation in edible crop plants and reports of microplastics in fruits and vegetables, raising potential concerns for food safety and human health. NPs can induce oxidative stress, impair photosynthesis, shift soil microbiota, and alter aquatic biodiversity, thereby threatening ecosystem stability and agricultural productivity. This review synthesizes current knowledge on NP sources, distribution, and behavior in terrestrial and aquatic systems, emphasizing their interactions with plants and soil microbiota. Special focus is given to nature-based remediation strategies, including phytoremediation and bioremediation, as eco-friendly and scalable approaches to mitigate NP contamination. By integrating environmental fate, ecological impacts, and remediation strategies, this review provides critical insights to support sustainable management of nanoplastic pollution in soil and aquatic ecosystems.

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